Finite element analysis of a nematic liquid crystal Landau-de Gennes model with quartic elastic terms

Fuente: arXiv
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Autores principales: Elafandi, Jacob, Weber, Franziska
Formato: Preprint
Publicado: 2024
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author Elafandi, Jacob
Weber, Franziska
author_facet Elafandi, Jacob
Weber, Franziska
contents In arXiv:1906.09232v2, Golovaty et al. present a $Q$-tensor model for liquid crystal dynamics which reduces to the well-known Oseen-Frank director field model in uniaxial states. We study a closely related model and present an energy stable scheme for the corresponding gradient flow. We prove the convergence of this scheme via fixed-point iteration and rigorously show the $Γ$-convergence of discrete minimizers as the mesh size approaches zero. In the numerical experiments, we successfully simulate isotropic-to-nematic phase transitions as expected.
format Preprint
id arxiv_https___arxiv_org_abs_2409_09837
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Finite element analysis of a nematic liquid crystal Landau-de Gennes model with quartic elastic terms
Elafandi, Jacob
Weber, Franziska
Numerical Analysis
65M60
In arXiv:1906.09232v2, Golovaty et al. present a $Q$-tensor model for liquid crystal dynamics which reduces to the well-known Oseen-Frank director field model in uniaxial states. We study a closely related model and present an energy stable scheme for the corresponding gradient flow. We prove the convergence of this scheme via fixed-point iteration and rigorously show the $Γ$-convergence of discrete minimizers as the mesh size approaches zero. In the numerical experiments, we successfully simulate isotropic-to-nematic phase transitions as expected.
title Finite element analysis of a nematic liquid crystal Landau-de Gennes model with quartic elastic terms
topic Numerical Analysis
65M60
url https://arxiv.org/abs/2409.09837